Genetics and Livestock Breeding in the UK: Co-Constructing Technologies and Heterogeneous Biosocial Collectivities

Genetics and Livestock Breeding in the UK: Co-Constructing Technologies and Heterogeneous Biosocial Collectivities

Genetics and livestock breeding in the UK: co-constructing technologies and heterogeneous biosocial collectivities (authors’ final version, published as: Morris C and Holloway L (2014) Genetics and livestock breeding in the UK: co-constructing technologies and heterogeneous biosocial collectivities. Journal of Rural Studies 33 pp150-160 (doi 10.1016/j.jrurstud.2012.10.003)) Morris C and Holloway L Contact: Lewis Holloway, Department of Geography, Environment and Earth Sciences, University of Hull, Cottingham Road, Hull, HU6 7RX. UK. [email protected] Abstract Cattle and sheep breeders in the UK and elsewhere are increasingly being encouraged to use a variety of genetic technologies to help them make breeding decisions. The technology of particular interest here is ‘classical’ statistical genetics, which use a series of measurements taken from animals’ bodies to provide an estimate of their ‘genetic merit’ known as Estimated Breeding Values (EBVs). Drawing on empirical research with the representatives of national cattle breed societies and individual cattle breeders the paper explores the complex ways in which they are engaging with genetic breeding technologies. The concept of ‘heterogeneous biosocial collectivity’ is mobilised to inform an understanding of processes of co-construction of breeding technologies, livestock animals and humans. The paper presents case studies of livestock breeding collectivities at different scales, arguing that the ways in which the ‘life’ of livestock animals is problematised is specific to different scales, and varies too between different collectivities at the same scale. This conceptualisation problematises earlier models of innovation-adoption that view farmers as either ‘adopters’ or ‘non-adopters’ of technologies and in which individual attitudes alone are seen as determining the decision to adopt or not adopt. Instead, the paper emphasises the particularity and specificity of co- construction, and that the co-construction of collectivities and technologies is always in process. Keywords: Genetic breeding technologies, Estimated Breeding Values, livestock animals, heterogeneous biosocial collectivities, ‘life’, co-construction © 2014, Elsevier. Licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International http://creativecommons.org/licenses/by-nc-nd/4.0/ 1. Rural studies and genetic technologies in agriculture An established tradition of research in rural studies on genetic technologies in agriculture (e.g. Goodman et al. 1987; Kloppenburg, 1990) has been extended in recent years by further research on the political economy and also the gendered dimensions of these phenomena (Bryant and Pini, 2006; Pechlaner and Otero, 2008). A more emergent scholarship has begun to consider the farm level implications of genetically modified organisms (GMO) (e.g. Lane et al. 2007; Lassen and Sandoe, 2009; Oreszczyn et al. 2010) reflecting a wider call within the social sciences for more attention to be paid to “the purchase of ... biotechnologies and the discourses and images through which they circulate in social practices …” (Spencer and Whatmore, 2001, pp.140-1). Given the high profile and on-going nature of the debate about genetically modified (GM) crops within Europe (e.g. Seifert, 2008) it is understandable that popular and academic attention has been focused on genetic technologies within the context of plant based agriculture. However, the corollary is a relative lack, at least until very recently, of rural social scientific interest in the ways in which livestock agriculture is being influenced by genetic technologies (Holloway and Morris, 2008; Morris and Holloway, 2009; Holloway et al. 2009; Twine, 2010). This might be explained in part by the absence of controversy in this context. In the UK, for example, there has been some media interest in cloned cattle and genetically modified pigs and chickens, but debates about the legitimacy of such technologies appear to be largely confined to specialist, scientific arenas (Marris et al. 2001). However, although attracting relatively limited public attention, cattle and sheep breeders in the UK and elsewhere are increasingly being encouraged to use a variety of genetic technologies to help them make breeding decisions with the aim of producing ‘better’ animal bodies. Such breeding technologies are layered on to and compete with more established breeding knowledge-practices notably visual assessment and the use of pedigree records which remain significant, albeit to varying extents both between and within breed societies, in breeding decisions and in the sale of livestock (Holloway and Morris, 2008, 2012). The most well developed examples of genetic breeding technologies are: genetic markers, which are identifiable genetic material supposedly related to particular phenotypic qualities such as enhanced productivity or reduced disease susceptibility; and ‘classical’ statistical genetics, used to provide an estimate of an animal’s ‘genetic merit’ known as Estimated Breeding Values (EBVs). The latter technology currently has the most widespread practical © 2014, Elsevier. Licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International http://creativecommons.org/licenses/by-nc-nd/4.0/ impact and relevance to the livestock breeding community and is integral to a geneticising discourse in agriculture (Holloway and Morris, 2008). EBVs thus provide the empirical focus of this paper. EBVs involve the production of a set of figures derived statistically from a set of measurements of the animal body, for example its weight at particular points since its birth, and the depths of fat and muscle in particular places. A statistical algorithm is used to calculate an individual animal’s ‘breeding value’ for each characteristic based on its own data and data from its relatives. These values can be used by breeders to indicate the relative breeding strengths and weaknesses of any animal, and to select animals for breeding in accordance with a particular breeding objective. The calculation of population average EBVs enables new norms or standards to be established because individual animals or herds / flocks can be compared - favourably or not - with these averages. “It can thus be suggested that animals or populations should embody particular statistical or genetic characteristics, and their conformity to or deviation from such norms are easily measured” (Holloway and Morris, 2012, p.65). EBV data are produced by organisations (e.g. publicly funded research institutes and commercial organisations such as breeding companies1) typically located ‘at a distance’ from the livestock animals themselves and the farms on which they are born and reared. Scrutiny of the subsequent results by breeders can take place electronically for example ‘on screen’ in a farm office where the animal itself is not present. Increasingly, however, EBV data are presented alongside the individual animal they represent at agricultural shows and sales (Holloway, 2005). The emerging array of genetic breeding technologies has been described by their proponents as contributing to a ‘genetics revolution’ in livestock agriculture (Bulfield, 2000; Kues and Niemann, 2004; Outlook on Agriculture, special issue: Genomics and Genetic Engineering for the Meat Industry, December 2003). Although mobilisation of the dramatic concept of ‘revolution’ may indicate the over-hyping that often accompanies the introduction of new technologies (Brown, 2003) it is apparent that active efforts, both within the public and private sectors, are being made to construct a genetic agenda in this field (Holloway and Morris, 2008, 2012). For example, although EBVs have been in circulation for several decades consistent attempts, in the form of articles in the farming press and training events hosted by organisations such as the English Beef and Lamb Executive (EBLEX)2, are being 1 In the UK, Signet is the major company producing EBVs, while ABRI is an Australian equivalent used by some UK breed societies. 2 EBLEX is part of England’s Agriculture and Horticulture Development Board, and is funded by a levy paid on sales of beef cattle and sheep in England. It works to promote the beef and sheep sectors and the more extensive © 2014, Elsevier. Licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International http://creativecommons.org/licenses/by-nc-nd/4.0/ made to enrol breeders into their use. This entails responsiveness to user needs through the invention of new ways of presenting EBV data to enhance their accessibility and visual intuitiveness. Such promotional activities point to the efforts of technology designers to configure “the identity of putative users” (Woolgar, 1991, p.59), with livestock breeders who use these genetic breeding technologies being defined as confident, progressive and contributing to the current and future profitability of the livestock industry. On the other hand, those who resist use of the technologies can be represented as problematic obstacles to the modernization of livestock breeding (Holloway and Morris, 2012). The purpose of this paper is to move beyond the claims made by those involved in the development of breeding technologies, to try to make sense of what is actually happening ‘on the ground’ as livestock breeders encounter these technologies within the practices of breeding. As such, the paper is in part a response to the call, by Greenhough and Roe (2006, p.417), for investigation into “non-expert

View Full Text

Details

  • File Type
    pdf
  • Upload Time
    -
  • Content Languages
    English
  • Upload User
    Anonymous/Not logged-in
  • File Pages
    31 Page
  • File Size
    -

Download

Channel Download Status
Express Download Enable

Copyright

We respect the copyrights and intellectual property rights of all users. All uploaded documents are either original works of the uploader or authorized works of the rightful owners.

  • Not to be reproduced or distributed without explicit permission.
  • Not used for commercial purposes outside of approved use cases.
  • Not used to infringe on the rights of the original creators.
  • If you believe any content infringes your copyright, please contact us immediately.

Support

For help with questions, suggestions, or problems, please contact us